UG code: |
MTH5104
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Module name: |
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Description: |
This module introduces some of the mathematical theory behind Calculus. It answers questions such as: What properties of the real numbers do we rely on in Calculus? What does it mean to say that a series converges to a limit? Are there kinds of function that are guaranteed to have a maximum value? The module is a first introduction, with many examples, to the beautiful and important branch of pure mathematics known as Analysis. |
Organiser: |
Dr Xin Li* |
Details: |
Level
|Semester A|15 credits
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Links: |
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Subject area: |
Pure mathematics |
Overlaps: |
None |
Essential prerequisites: |
- MTH4100/MTH4200 Calculus I
- MTH4104 Introduction to Algebra
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Helpful prerequisites: |
None |
Restrictions: |
None |
Assessment: |
Normal assessment
Description | Duration / Length | Weighting |
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Mid-term test |
40 minutes |
10% |
Final examination |
2 hours |
90% |
Associate assessment
Description | Duration / Length | Weighting |
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Mid-term test |
40 minutes |
10% |
Final examination |
2 hours |
90% |
Reassessment – synoptic
Description | Duration / Length | Weighting |
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Resit examination |
2 hours |
100% |
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Comments: |
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Syllabus: |
- Real numbers: Algebraic properties, inequalities, supremum and infimum, completeness axiom for the existence of the supremum.
- Sequences: Definition of limit and its use in specific examples, limit of sum, product and quotient of sequences. Bounded monotone sequences. Statement of the Bolzano-Weierstrass Theorem.
- Series: Convergent series, geometric series, harmonic series. Comparison and ratio tests. Absolutely convergent series. Power series. Examples, including sin(x), cos(x) and exp(x).
- Continuous functions: Definition of continuity and its use in specific examples, sum of continuous functions, composites of continuous functions (proofs), products/quotients of continuous functions (stated). Briefly, the Intermediate Value Theorem, application to roots of polynomials, boundedness of continuous functions on closed bounded intervals.
- Definition of derivative. Continuity of differentiable functions. (Covered if time permits, also covered at the start of the follow-on module, Differential and Integral Analysis.)
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Learning outcomes: |
Academic Content
This module covers:
- The fundamental concepts of mathematical analysis.
- The formal definitions of convergence for sequences and series, and of continuity and differentiability for functions.
- Proofs of general results which follow from these definitions.
Disciplinary Skills
At the end of this module, students should be able to:
- Define the basic concepts underlying continuous mathematics: supremum, limit of a sequence, convergent series, continuous function, derivative.
- Use criteria for convergence of series and continuity of functions.
- Prove general results concerning infinite sequences, convergent series and continuous functions.
- Solve problems relating to convergence of series and continuity of functions.
Attributes
At the end of this module, students should have developed with respect to the following attributes:
- Grasp the principles and practices of their field of study.
- Explain and argue clearly and concisely.
- Apply their analytical skills to investigate unfamiliar problems.
- Acquire substantial bodies of new knowledge.
Assessment Criteria
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History: |
Approved by Faculty Board 03/99. CD and TA added, level revised 05/03, assessment profile changed 06/04. Assessment in 2010–11 was 10% coursework, 10% in-term test, 80% final exam. |
Last modified: Friday, 23 June 2017, 1:04 PM
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